An electron is very small. So small that you cant even see it with an electron microscope (because it uses electron to detect itself). It's mass is tiny. Billions of times less than a kg. It's just one type of matter. Some estimates put the number of electrons in the universes at greater than 10100. So no, the universe is not an electron.
a core electron, is an electron that isn't a valance electron. That means any electron that is not on the outer shell of an atom
An electron is a negative particle.
dd
electron affinity is the negative of electron gain enthalpy. for example, the electron gain enthalpy of fluorine is -328, and electron affinity is 328 which is -(-328)
Electron in an atom is represented by electron cloud around the nucleus
An Electron.
No. The properties of one electron will be the exact same as any electron anywhere else in the universe, barring momentum.
The mass of an electron is the same on Mars as it is everywhere else in the universe:9.10938188 × 10-31 kilogramsMass is not affected by the gravitational effect of planets.
It depends on the hamiltonian but it would be of the form of a regular plane wave.
The most basic of the elements is hydrogen, a single proton with a single electron.
In our Universe, various quantities come in "chunks" called "quanta." Amongst these are electricity, which cannot come in any amount smaller than one elementary charge. For (relatively) large things, we can have two objects separated by distances (in micrometers) of 1.000 or 2.000 or 1.500 or 1.379. However, as objects get smaller and smaller, we find that, in our Universe, the quantitization of quantities becomes more and more important. One such quantized quantity is energy state. Basically, when an electron is within the electric field of a proton, our Universe REQUIRES that the electron be in a specific orbital (try not to confuse that word with "orbits," which implies that the electron is circling around the proton) outside the proton. The lowest possible orbital that our Universe will permit an electron to be around a proton is the 's' orbital, in which the electron is MOST LIKELY to be about one angstrom from the proton, with no preference for direction. In other words, this orbital resembles (note the word!) a shell. Our Universe will not permit an electron to be in any lower energy state; ie, it can NOT get any closer to a proton. Don't like this fact about our Universe? Unfortunately, this is the one we'll have to learn about -- we don't have any other Universes to choose from.
Hydrogen is the lightest (it is a gas) and most abundant element in the Universe. A hydrogen atom consists of a single proton and a single electron, making it the simplest atom in the Universe.
plasma
In our Universe, in which the rules of quantum mechanics rule for sub-atomic particles, the probability of an electron being inside a nucleus is vanishingly small. Its most likely position is on the order of one angstrom away from the nucleus. Summing up, an electron is away from the proton because the laws that govern our Universe won't allow it to be close.
All have mass and with mass comes a gravitational field. Also, all are the reminants of the creation of the universe.
C. P. Gilmore has written: 'The scanning electron microscope: world of the infinitely small' -- subject(s): Pictorial works, Scanning electron microscope 'The unseen universe' -- subject(s): Pictorial works, Scanning electron microscopy
A hydrogen atom has one electron and one proton. It is signified by the letter H and is the most abundant element in the universe.